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1 etamine-induced hyperactivity; disruption of prepulse inhibition).
2 d-amphetamine- and DOI-induced disruption of prepulse inhibition.
3 t mice show increased aggression and reduced prepulse inhibition.
4 tial working memory, social interaction, and prepulse inhibition.
5 revious findings, Fmr1KO mice have increased prepulse inhibition.
6 ects were tested on both P50 suppression and prepulse inhibition.
7 significantly affect startle habituation or prepulse inhibition.
8 startle response but exhibit a deficiency in prepulse inhibition.
9 A/2J mice, a strain with low basal levels of prepulse inhibition.
10 s, motor coordination, pain sensitivity, and prepulse inhibition.
11 vant to exploratory locomotion, startle, and prepulse inhibition.
12 erstimulus interval, stimulus intensity, and prepulse inhibition.
13 more evident in measures of right eye-blink prepulse inhibition.
14 ersonality disorder showed less asymmetry of prepulse inhibition.
15 hanced susceptibility to stress and impaired prepulse inhibition.
16 enic patients showing the expected deficient prepulse inhibition.
17 ng was examined operationally via the use of prepulse inhibition.
18 of neurotensin had no significant effect on prepulse inhibition.
19 midbrain dopamine neurons, and disruption in prepulse inhibition.
20 ited any impairment in startle reactivity or prepulse inhibition.
21 inhibitory interneurons in gap detection and prepulse inhibition.
22 pment of temporal processing, assessed using prepulse inhibition.
23 performance, spatial object recognition, and prepulse inhibition.
24 malities in sensory filtering as measured by prepulse inhibition.
25 nitude of the acoustic startle reflex or its prepulse inhibition.
26 social interaction, locomotor activity, and prepulse inhibition.
27 el and potent mechanism of sensory gating in prepulse inhibition.
28 altered forebrain development and decreased prepulse inhibition.
29 exhibited increased sociability and impaired prepulse inhibition.
30 Rab3A or synaptotagmin 1 only show decreased prepulse inhibition.
31 23), sensorimotor dexterity (2q24 and 2q32), prepulse inhibition (5p15), the California Verbal Learni
33 out mice had a sexually dimorphic deficit in prepulse inhibition, a gene dosage-dependent decrease in
34 the rotorod, but not to any abnormalities in prepulse inhibition, a measure of sensorimotor gating.
35 term plasticity are linked to alterations in prepulse inhibition, a measure of sensorimotor gating.
36 o showed overgrooming as well as deficits of prepulse inhibition, a widely used endophenotype of schi
37 demonstrated consistent associations between prepulse inhibition abnormalities and clinical measures.
39 iors, less depression-like conduct, impaired prepulse inhibition, amphetamine hypersensitivity, and i
40 alpha deficient mice displayed a decrease in prepulse inhibition, an increase in grooming behaviors,
41 ith impaired sensorimotor gating measured by prepulse inhibition--an established endophenotype of sch
42 ld-type hosts, SCZ glial mice showed reduced prepulse inhibition and abnormal behavior, including exc
43 ell-characterised neural mechanisms, such as prepulse inhibition and antisaccades, to substantially a
44 icits in translational inhibitory biomarkers-prepulse inhibition and antisaccades-that occur after sl
45 ecreased anxiety-related behavior, increased prepulse inhibition and delayed acquisition of rewarded
48 se and adaptability of the startle response (prepulse inhibition and habituation) have been observed
50 rs of early auditory information processing: prepulse inhibition and mismatch negativity (MMN) in SZ
53 nvestigated the effects of antipsychotics on prepulse inhibition and startle habituation in acutely h
56 e a reduced acoustic startle reflex, altered prepulse inhibition, and characteristics of compensatory
58 diminished startle response, as measured by prepulse inhibition, and impaired social recognition.
59 evelopment decreased startle habituation and prepulse inhibition, and increased avoidance (particular
61 phenotypes, such as perseveration, disrupted prepulse inhibition, and strong withdrawal from social i
62 of SKF 81297 to disrupt acoustic startle and prepulse inhibition appeared to be attenuated in D5-/- m
63 hether abnormal P50 suppression and abnormal prepulse inhibition are independent neurophysiological c
67 containing the human FMR1 gene had levels of prepulse inhibition comparable to WT mice, indicating no
68 iors, with male Val/Val mice exhibited lower prepulse inhibition compared with Met/Met mice, whereas
71 w rescue of key SCZ-related deficits, namely prepulse inhibition decrease, working memory impairment,
73 edicated or unmedicated at admission, showed prepulse inhibition deficits compared with healthy subje
77 hat the neurobiological substrate underlying prepulse inhibition deficits may be dysregulated during
78 should probably focus on the relationship of prepulse inhibition deficits to measures such as thought
79 s robust as that in previous reports linking prepulse inhibition deficits with other measures, such a
80 novel environments, startle hyperreactivity, prepulse inhibition deficits, altered cued fear conditio
81 patients with schizophrenia would also have prepulse inhibition deficits, thereby reflecting a genet
82 conditions, schizophrenia-linked deficits in prepulse inhibition detected with a relatively strong pr
83 that produce an enhanced sensitivity to the prepulse inhibition-disruptive effects of the DA agonist
84 d that abnormal P50 suppression and abnormal prepulse inhibition do not necessarily occur together.
85 the rotarod test, acoustic startle response, prepulse inhibition, elevated plus-maze, light <--> dark
86 DCN induces hearing using a novel electrical prepulse inhibition (ePPI) of startle reflex behavior mo
89 s a measure of pre-attentive sensory gating, prepulse inhibition has been found to be altered in smal
90 in a novelty-induced open field, deficits in prepulse inhibition, hypersensitivity to amphetamine, an
91 nce reflects a common endophenotype and that prepulse inhibition identifies a separate endophenotype
92 amphetamine-induced hyperlocomotion, but not prepulse inhibition impairments, in a dose-dependent man
93 erlocomotion, restored amphetamine-disrupted prepulse inhibition, improved social behavior, and novel
96 ging and ameliorated a behavioral deficit in prepulse inhibition in adulthood in a DISC1 knockdown mo
97 lation also reduced swim test immobility and prepulse inhibition in P rats and increased locomotor st
98 Patients showed reduced P50 suppression and prepulse inhibition in relation to healthy comparison su
99 f prepulses should not contribute to reduced prepulse inhibition in schizophrenia patients versus con
100 cluding hyperlocomotor activity, deficits in prepulse inhibition, increased anxiety, impaired social
102 ld test, it restored d-amphetamine-disrupted prepulse inhibition, it induced cognitive improvements i
103 y, the effector mechanisms underlying neural prepulse inhibition itself were unaffected by antagonist
104 impaired neurovascular coupling; attenuated prepulse inhibition (males); and hyperkinetic behavior.
105 ndings suggest that antipsychotic effects on prepulse inhibition may not be evident at a time when sc
107 ndently accounted for 60% of the variance in prepulse inhibition measures and contributed 35% of the
108 immobility in the forced swim test, reduced prepulse inhibition, mild motor coordination impairments
109 ate that BACE1(-/-) mice exhibit deficits in prepulse inhibition, novelty-induced hyperactivity, hype
111 tor gating deficits, as measured by acoustic prepulse inhibition, occur in both male and female Celsr
112 ing was abnormal, as measured by deficits in prepulse inhibition of acoustic and tactile startle.
113 ehavioral phenotypes in open-field activity, prepulse inhibition of acoustic startle response and con
114 y of tests, including eyeblink conditioning, prepulse inhibition of acoustic startle response, and st
116 of behavioral alterations and of deficits in prepulse inhibition of acoustic startle, a measure of se
117 ated acoustic startle responses, deficits in prepulse inhibition of acoustic startle, and motor hyper
118 were also observed in locomotor activity and prepulse inhibition of acoustic startle, behaviors that
119 ia assesses the neurophysiologic measures of prepulse inhibition of acoustic startle, P50 event-relat
120 osure had the largest effect on activity and prepulse inhibition of startle 1-week post-irradiation t
122 ntitative MRI, and sensorimotor gating using prepulse inhibition of startle in a subset of 12 individ
125 tory tasks such as frequency discrimination, prepulse inhibition of startle responses, or fear condit
127 cits in auditory-evoked response adaptation, prepulse inhibition of startle, and evoked gamma-activit
128 startle amplitudes and similar magnitudes of prepulse inhibition of startle, suggesting that CREBalph
131 the PV neuron population, robustly impaired prepulse inhibition of the acoustic startle reflex (PPI)
132 uisition of contextual fear conditioning and prepulse inhibition of the acoustic startle reflex.
133 ine system increases locomotion and disrupts prepulse inhibition of the acoustic startle response (PP
136 ften studied in humans and rodents using the prepulse inhibition of the acoustic startle response (PP
137 typical antipsychotic clozapine and enhanced prepulse inhibition of the acoustic startle response in
138 Chemospecific ablation of THINs impairs prepulse inhibition of the acoustic startle response sug
139 ater sensitivity to a D2 agonist and smaller prepulse inhibition of the acoustic startle response tha
140 ylyl)methyl]propanamide dihydrochloride), on prepulse inhibition of the acoustic startle response.
141 ng a temporary-threshold shift model and gap-prepulse inhibition of the acoustic startle to assess ti
144 e normal comparison subjects were tested for prepulse inhibition of the eyeblink component of the sta
145 h as those reported in studies that measured prepulse inhibition of the human startle response and ha
146 potential was significantly correlated with prepulse inhibition of the P13 potential, the N40 potent
147 These results demonstrate the presence of prepulse inhibition of the P13 potential, the N40 potent
148 prepulse intensity and the background level, prepulse inhibition of the SR was reduced or absent whil
149 mice deficient in TIMP-2 (knockout) exhibit prepulse inhibition of the startle reflex, suggesting de
151 min (PV)-positive GABAergic, neurons reduced prepulse inhibition of the startle response (PPI) and en
152 -HT)2A receptors are known to be involved in prepulse inhibition of the startle response (PPI), a mea
155 er, heterozygous mice display an increase in prepulse inhibition of the startle response, a manifesta
162 udy, we used elevated plus-maze, startle and prepulse inhibition, open field, and novel object recogn
164 rate deficits in inhibition when assessed on prepulse inhibition, P50 suppression, and antisaccade pa
167 deficits in working memory, sociability, and prepulse inhibition, paralleled by locomotor hyperactivi
168 digm, while hearing status was assessed with prepulse inhibition (PPI) and auditory brainstem respons
169 hors introduce a real-time model of acoustic prepulse inhibition (PPI) and facilitation (PPF) in anim
170 -relevant abnormalities, including deficient prepulse inhibition (PPI) and increased grooming stereot
171 f IL-6 on day 12.5 of mouse pregnancy causes prepulse inhibition (PPI) and latent inhibition (LI) def
175 gonists also reduce hyperactivity, attenuate prepulse inhibition (PPI) deficits and social withdrawal
177 nd lead times (20-40 ms) and was replaced by prepulse inhibition (PPI) for higher values, especially
178 ring on startle reactivity, habituation, and prepulse inhibition (PPI) in male Lewis, Sprague-Dawley,
180 autism, these offspring display deficits in prepulse inhibition (PPI) in the acoustic startle respon
181 se in fear conditioning (FC), a reduction in prepulse inhibition (PPI) in the KO animal, along with a
189 ty to dopamine agonist-induced disruption of prepulse inhibition (PPI) may be a useful model for the
192 , and deficits in spatial working memory and prepulse inhibition (PPI) of acoustic startle in Grin1 m
194 rally active causing a dramatic reduction in prepulse inhibition (PPI) of acoustic startle response.
195 tactile startle as well as the magnitude of prepulse inhibition (PPI) of both tactile and acoustic s
199 t deficient sensorimotor gating (measured by prepulse inhibition (PPI) of startle) and mismatch negat
200 ensory gating of auditory evoked potentials, prepulse inhibition (PPI) of startle, and startle amplit
201 vestigated whether individual differences in prepulse inhibition (PPI) of the acoustic startle reflex
202 examine core and shell function, we measured prepulse inhibition (PPI) of the acoustic startle reflex
204 ry spatial acuity was measured in mice using prepulse inhibition (PPI) of the acoustic startle reflex
206 ulation of the dopamine (DA) system disrupts prepulse inhibition (PPI) of the acoustic startle respon
207 locomotor activity in a novel open field and prepulse inhibition (PPI) of the acoustic startle respon
211 tive probe associated with this circuitry is prepulse inhibition (PPI) of the acoustic startle respon
212 d schizophrenia patients exhibit deficits in prepulse inhibition (PPI) of the acoustic startle respon
214 e than Long Evans (LE) rats to disruption of prepulse inhibition (PPI) of the startle reflex by the d
218 deficient sensorimotor gating as measured by prepulse inhibition (PPI) of the startle response, exhib
219 important measure of sensorimotor gating is prepulse inhibition (PPI) of the startle response, impai
221 ed into the nucleus accumbens of rats on the prepulse inhibition (PPI) of their acoustic startle refl
223 ity, impaired working memory, and deficit in prepulse inhibition (PPI) that was ameliorated by diazep
225 nt is preceded by a stimulus; this is called prepulse inhibition (PPI) when the prestimulus is weak a
226 etion (Df1) that models 22q11DS have reduced prepulse inhibition (PPI), a behavioral abnormality and
227 yond the dopaminergic pathway and influences prepulse inhibition (PPI), a critical translational meas
229 f3b-null mice also have a profound defect in prepulse inhibition (PPI), a measure of sensorimotor gat
230 whether intra-Acb amylin signaling modulates prepulse inhibition (PPI), a measure of sensorimotor gat
233 n amygdala systems that modulate startle and prepulse inhibition (PPI), an operational measure of sen
234 rlocomotion, increased stereotype, defective prepulse inhibition (PPI), and disability in nest buildi
235 ibition of startle by sensory stimuli, i.e., prepulse inhibition (PPI), and is disrupted in patients
236 function demonstrated consistent deficits in prepulse inhibition (PPI), as well as higher startle res
240 the hypothesis that PPD in rats would alter prepulse inhibition (PPI), which is an operational measu
241 on-startling stimulus, a phenomenon known as prepulse inhibition (PPI), which reflects sensory gating
245 n Sapap3-KOs using the translational measure prepulse inhibition (PPI); however, there was significan
248 oups differed significantly in the amount of prepulse inhibition produced by the 16-dB prepulse, with
250 or the improvement or whether differences in prepulse inhibition reflect other factors, such as acuit
252 zotypal personality disorder all had reduced prepulse inhibition relative to comparison subjects, and
253 ophrenia-relevant behavioral tasks including prepulse inhibition, response to psychotomimetic drugs,
255 suggest a genetically transmitted deficit in prepulse inhibition (sensorimotor gating) in patients wi
257 testing in a carefully designed combined P50/prepulse inhibition session using stimulus characteristi
258 r disorder, no association was found between prepulse inhibition size and objectively rated motor sym
259 ion without delays, spontaneous alternation, prepulse inhibition, social interaction, anxiety-, stres
260 on the activity of the dentate gyrus, e.g., prepulse inhibition, startle habituation, latent inhibit
261 s displayed more climbing behavior and lower prepulse inhibition, suggesting an increase in central n
262 ry avoidance, increased startle responses in prepulse inhibition tasks, and increased MK-801-induced
263 eline startle responses in the course of the prepulse inhibition test, and lower hedonic responses in
264 ss sensitive to an amphetamine disruption of prepulse inhibition than WT mice but were more sensitive
265 underlie certain core deficits (startle and prepulse inhibition) that are observed in post-traumatic
266 atory activity in CLAMS testing, and altered prepulse inhibition to startle, an important biomarker o
267 ficits in sensorimotor gating as measured by prepulse inhibition, to the authors' knowledge P50 senso
275 At the 500-msec interstimulus interval, prepulse inhibition was significantly but negatively cor
279 in previous experiments, P50 suppression and prepulse inhibition were not significantly correlated.
280 nstrated greater right versus left eye-blink prepulse inhibition, whereas the probands, their relativ
281 ceptor channel blocker produced a deficit in prepulse inhibition which was prevented by a GluN2C/2D p